void Disp_Client_Data()
{
uint8_t line = 1 ,column = 0,chk =0;
char buf;
LCDClear();
LCDFont(FONT_SMALL);
while(1)
{
while(!WIFI_ReceiveByte(&buf));
chk = Parse_Data(buf);
if(chk == 2)
{
Format_Data(buf,&line,&column);
if(buf == 'X')
{
LCDClear();
LCDPrintf(1,0,"Connection Closed");
LCDPrintf(8,0,"SW2 to Exit");
wait_for_sw();
LCDPrintf(8,0,"Exit ");
break;
}
}
}
}
void routine(void) {
LCDClear();
LCDBitmap(bitcoin); // display Bitcoin Logo
delay(3000);
LCDClear();
gotoXY(0, 4);
LCDString("kendricktabi.com");
delay(3000);
LCDClear();
gotoXY(0, 0);
LCDString(" {Bitcoin!} ");
gotoXY(0, 2);
LCDString("Connecting ");
LCDString("to WiFi");
LCDClear();
gotoXY(0, 2);
LCDString(" WiFi ");
LCDString(" Connected! ");
delay(1000);
LCDClear();
for(;;) {
loop();
}
}
void Auto_Setup(uint8_t type)
{
LCDPrintf(1,0,"Connecting..");
switch(type)
{
case 0:
LCDClear();
LCDFont(FONT_SMALL);
Echo_Disable(); // Disable Echo for each command ( easier to parse)
while (!(Echo_Confirm())); // Send AT command till response OK
if(!Disassociate()) // Disassociate if currently associated to any network
{
LCDPrintf(5,0,"Exit");
break;
}
if(!DHCP_Enable()) // Enable Dynamic IP (or Dynamic Host Configuration Protocol)
{
LCDPrintf(5,0,"Exit");
break;
}
if(!Auto_Wifi()) // Configure Auto Connect Wifi settings
{
LCDPrintf(5,0,"Exit");
break;
}
if(!Auto_Network()) // Configure Auto Connect Network Settings
{
LCDPrintf(5,0,"Exit");
break;
}
if(!Auto_Enable()) // Enable Auto Connect Profile
{
LCDPrintf(5,0,"Exit");
break;
}
if(!Auto_Start()) // Start Auto Connect
{
LCDPrintf(5,0,"Exit");
break;
}
LCDPrintf(1,0,"Connected");
LCDPrintf(8,0,"SW2 to connect");
break;
default:
break;
}
// Auto connection done
// Now Actual Application
wait_for_sw();
LCDClear();
LCDPrintf(1,0,"Connect Client");
Data_handle(CLIENT); // Wait For Client Connection Details
wait_for_sw();
// Disp_Client_Data(); // Parse message sent from Client and Display the Data
}
void main()
{
unsigned char i;
//Initialize LCD module
LCDInit(LS_BLINK|LS_ULINE);
//Clear the screen
LCDClear();
//Simple string printing
LCDWriteString("Congrats ");
//A string on line 2
LCDWriteStringXY(0,1,"Loading ");
//Print some numbers
for (i=0;i<99;i+=1)
{
LCDWriteIntXY(9,1,i,3);
LCDWriteStringXY(12,1,"% ");
_delay_loop_2(0);
_delay_loop_2(0);
_delay_loop_2(0);
_delay_loop_2(0);
}
//Clear the screen
LCDClear();
//Some more text
LCDWriteString("Hello world");
LCDWriteStringXY(0,1,"By YourName Here"); // <--- Write ur NAME HERE !!!!!!!!!!!
//Wait
for(i=0;i<100;i++) _delay_loop_2(0);
//Some More ......
LCDClear();
LCDWriteString(" eXtreme");
LCDWriteStringXY(0,1," Electronics");
//Wait
for(i=0;i<100;i++) _delay_loop_2(0);
//Custom Chars ......
LCDClear();
LCDWriteString("Custom Char !!!");
LCDWriteStringXY(0,1,"%0%1%2%3%4%5%6%7");
}
void main(void)
{
OSCTUNEbits.PLLEN = 1;
LCDInit();
LCDClear();
InitPins();
ConfigPeriph();
ConfigInterrupts();
while (1) {
received = ReadSerial();
LCDClear();
switch(received) {
case 'a':
received2 = ReadSerial();
sprintf(output,"Received char:%c",received2);
/*
* FIXME : PIC18 doesn't transmit back to RPi
* python script hangs on serial.read(1)
* Same behavior with cat -A /dev/ttyACM0
*
*
* _delay(2); // 2 cycle delay
*while(!PIR1bits.TX1IF);
*sprintf(output,"TRANSMIT");
*LCDWriteLine(output,0);
*TXREG1=received2;
*
*/
break ;
case 'b':
potentiometer = ReadPot();
sprintf(output,"Pot value: %d", potentiometer);
LATD =~ LATD;
break;
case 'c':
received2=ReadSerial();
sprintf(output,"Set LED to 0x%X",received2);
LATD = received2;
break;
default:
sprintf(output, ">>UNKNOWN %c",received);
break;
}
LCDWriteLine(output,0);
}
}
void Task_LCDMAN(void *pdata){
char* src;
INT8U err;
while(1){
src = (char*)OSMboxPend(Mbox_LCDMAN,0,&err);
LCDClear();
//LCDString(0,"ID:");
LCDString(0,src);
OSTimeDlyHMSM(0,0,3,0);
LCDClear();
LCDString(0," Bitman Lab\n Log System.");
}
}
void StateTemperature(void)
{
uint8_t temp_Value;
uint8_t degree_Type = 0;
uint8_t sChange = 0;
DisplayTempMenu(); // Temperature menu text
if (BUT_PRESSED()) // If a button press is pending
{
if (RB0_PRESSED()) // If temperature mode confirmed
{
RESET_RB0(); // Event has been used
LCDClear(); // Clear the screen
for (;;) // Infinite loop
{
temp_Value = I2CReadTemp(); // Get current temperature reading
DisplayTemperature(temp_Value,degree_Type); // Display current reading
if (BUT_PRESSED()) // If a button press is pending
{
if (RB0_PRESSED()) // User chooses to exit
{
RESET_RB0(); // Event has been used
nState = ST_TEMPERATURE; // Move on to temperature mode
LCDClear(); // Wipe display for next mode
break; // Exit the infinite loop
}
if (RA4_PRESSED()) // User chooses to exit
{
RESET_RA4(); // Event has been used
if (sChange == 1)
{
sChange = 0;
degree_Type = 1;
}
else
{
sChange = 1;
degree_Type = 0;
}
}
}
}
}
else if (RA4_PRESSED()) // If next mode selected (by user)
{
RESET_RA4(); // Event has been used
nState = ST_CLOCK; // Move to clock selection mode
LCDClear(); // Clear LCD for next display
}
} // If button press recorded
} // Temperature selection mode
void main()
{
unsigned char i;
for(i=0;i<10;i++) _delay_loop_2(0);
while(1)
{
//Initialize LCD module
LCDInit(LS_BLINK|LS_ULINE);
for(i=0;i<10;i++) _delay_loop_2(0);
//Clear the screen
LCDClear();
//Simple string printing
LCDWriteStringXY(0,0,"Welcome to CELAB");
//LCDWriteString("Congrats ");
//A string on line 2
LCDWriteStringXY(0,1,"Loading ");
//Print some numbers
for (i=0;i<99;i+=1)
{
LCDWriteIntXY(9,1,i,3);
LCDWriteStringXY(12,1,"%");
_delay_loop_2(0);
}
//Clear the screen
LCDClear();
//Some more text
LCDWriteString("Hello world");
LCDWriteStringXY(0,1,"ComputronicsLab"); // <--- Write ur NAME HERE !!!!!!!!!!!
//Wait
for(i=0;i<50;i++) _delay_loop_2(0);
//Some More ......
LCDClear();
LCDWriteString("Computronics");
LCDWriteStringXY(0,1,"Lab");
for(i=0;i<50;i++) _delay_loop_2(0);
}
}
int main(int argc, const char *argv[])
{
LCDInit(LS_NONE);
LCDClear();
// while(1)
// {
//Clear the screen
// LCDClear();
//Simple string printing
LCDWriteString("GET A STRING!");
//A string on line 2
// LCDWriteStringXY(0,1," Senior Project");
// int i;
//Wait
// for(i=0;i<100;i++) _delay_loop_2(0);
//Clear the screen
// LCDClear();
// }
return 0;
}
void loop() {
gotoXY(0, 5);
LCDString("Please wait.");
LCDClear();
gotoXY(0, 0);
LCDString("{BTC PRICES}");
gotoXY(0, 2);
LCDString("$= ");
gotoXY(0, 5);
LCDString("Updated! ");
delay(1000);
gotoXY(0, 5);
LCDString(" ");
gotoXY(0, 5);
for (int x=0; x <= 11; x++){
LCDString(".");
delay(1000);
}
gotoXY(0, 5);
for (int x=0; x <= 11; x++){
LCDString(" ");
delay(1000);
}
}
void LCDInit(void)
{
// Initialize SPI Interface
Initialize_SPI();
// set pin directions
LCD_CS_MAKE_OUT();
LCD_CS_HIGH();
LCD_DC_MAKE_OUT();
LCD_RES_MAKE_OUT();
// Toggle reset pin
LCD_RES_LOW();
Delay(1000);
LCD_RES_HIGH();
Delay(1000);
// Send sequence of command
LCDSend(0x21, SEND_CMD); // LCD Extended Commands.
LCDSend(0xC8, SEND_CMD); // Set LCD Vop (Contrast). 0xC8
LCDSend(0x04 | !!(LCD_START_LINE_ADDR & (1u << 6)), SEND_CMD); // Set Temp S6 for start line
LCDSend(0x40 | (LCD_START_LINE_ADDR & ((1u << 6) - 1)), SEND_CMD); // Set Temp S[5:0] for start line
//LCDSend( 0x13, SEND_CMD ); // LCD bias mode 1:48.
LCDSend(0x12, SEND_CMD); // LCD bias mode 1:68.
LCDSend(0x20, SEND_CMD); // LCD Standard Commands, Horizontal addressing mode.
//LCDSend( 0x22, SEND_CMD ); // LCD Standard Commands, Vertical addressing mode.
LCDSend(0x08, SEND_CMD); // LCD blank
LCDSend(0x0C, SEND_CMD); // LCD in normal mode.
// Clear and Update
LCDClear();
LCDUpdate();
}
void showSplashScreen()
{
//Clear the screen
LCDClear();
displayMsg(m1_splash, m2_splash, 0);
_delay_ms(2000);
}
void main(void)
{
//Initialize the LCD module
LCDInit(LS_NONE);
//Initialize the ADC module
ADCInit();
//Clear the LCD
LCDClear();
LCDWriteString("Thermometer");
while(1)
{
//Read the temperature using LM35
float t = LM35ReadTemp();
//Print it on the LCD
LCDWriteIntXY(0,1,t,3);
//Print the degree symbol and C
LCDWriteString("%0C");
//Wait 200ms before taking next reading
__delay_ms(200);
}
}
void main(void)
{
/* Initialize I/O and Peripherals for application */
InitApp(); //at end of user.c
led_counter=0;
spk_bit=0; //what are the spk_bits ???
led_bit=0;
LCDInit();
LCDClear();
gotoXY(1,11); //(1,11) is about halfway down
LCDString("PIC 16LF1786");
while(1)
{
/* TODO <INSERT USER APPLICATION CODE HERE> */
if(spk_bit==1)
{
if((spk_enable==1)&&(spk_enable2==1))
LATBbits.LATB6=1; //B6 is the clk in for uploading program to PIC
}else LATBbits.LATB6=0;
}
}
int main(int argc, const char *argv[])
{
unsigned char i;
LCDInit(LS_NONE);
LCDClear();
// Initialize usart
init_usart(BAUDRATE, TRANSMIT_RATE, DATA_BITS, STOP_BITS, PARITY_BITS);
char recipe_name[RECIPE_NAME_LENGTH];
eeprom_read_block((void*)&recipe_name, (const void*)0x00, RECIPE_NAME_LENGTH);
LCDWriteString("Recipe Name:");
LCDWriteStringXY(0,1,recipe_name);
for(i=0;i<25;i++) _delay_loop_2(0);
// Clear second row
LCDWriteStringXY(0,1," ");
eeprom_read_block((void*)&recipe_name, (const void*)0x76, RECIPE_NAME_LENGTH);
LCDWriteString("Recipe Name:");
LCDWriteStringXY(0,1,recipe_name);
return 0;
}
// Run the IHK line
void runLine(){
LCDClear();
static const uint8_t forwardDirection = 0;
// Start speed, current speed.
uint8_t currentSpeed = SPEED_CREEP;
setDirectionMotorL(forwardDirection);
setDirectionMotorR(forwardDirection);
// Run until end of track.
while(stopFlag == FLAG_NOT_SET)
{
if(getSensorUpdateFlag())
{
// When a line is lost after driving straight, go in search mode
if(lostLineFlag == FLAG_SET)
{
searchMode();
lostLineFlag = FLAG_NOT_SET;
}
// When line is found, make a Right turn
// Increase speed and follow the line.
if(foundLineFlag == FLAG_SET)
{
go(150,DIRECTION_RIGHT,SPEED_CREEP);
setDirectionMotorL(forwardDirection);
setDirectionMotorR(forwardDirection);
currentSpeed = SPEED_CREEP;
foundLineFlag = FLAG_USED;
}
// When following the line,
// if front sensor detects obstacle,
// exit line following loop
if (foundLineFlag == FLAG_USED)
{
uint16_t distance = AdcConvert(1);
if (distance > (uint16_t)500)
{
setStopFlag(FLAG_SET);
}
}
// Calculate and set new duty cycle.
calcDuty(currentSpeed, calcFloorErrorAndFlagControl());
clearSensorUpdateFlag();
}
}
// Stop the robot at end mark.
setDutyCycleMotorL(0);
setDutyCycleMotorR(0);
}
void loop(void) {
LCDClear();
LCDBitmap(SFEFlame);
delay(1000);
LCDClear();
LCDBitmap(SFEFlameBubble);
delay(1000);
LCDClear();
LCDBitmap(awesome);
delay(1000);
LCDClear();
LCDString("Hello World!");
delay(1000);
}
void init_lcd(void)
{
LCDInit(LS_NONE);
LCDClear();
LCDWriteString(" Mr. Pour ");
LCDWriteStringXY(0,1," Senior Project");
}
void LCDSample(void)
{
LCDClear();
gotoXY(7,1);
LCDString("Nokia 5110");
gotoXY(4,2);
LCDString("Scroll Demo");
}
/* FUNCTIILE DE OUTPUT PE LED,BUZZER*/
void view_MORSE(char* msg, char* msg2)
{
int i;
LCDClear();
LCDWriteString(msg2);
for (i=0;i<strlen(msg);i++) {
if (msg[i]=='s') S();
else if (msg[i]=='o') O();
}
}
void Check_SD(void){
unsigned char x,y;
int delay;
x=CardIsPresent();
while(x==1){
LCDClear();
LCDStr(0,"Put SD Card",0);
for(delay=0;delay<50000;delay++){
}
x=CardIsPresent();
}
y=CardIsProtected();
if(y==1){
LCDClear();
LCDStr(0,"Card is",0);
LCDStr(1,"protected",0);
}
else MSD_Write_Block(Data,0x00,512);
}
void update_LCD_screen(int view)
{
/* Switch view on LCD */
if (view == LCD_CURRENT_TEMP) {
/* Create string to display on LCD */
sprintf(lcd_string, " %1.1f F", (double)g_current_temp);
/* Print update to LCD */
LCDClear();
LCDWriteString(" Internal Temp ");
LCDWriteStringXY(0, 1, lcd_string);
}
if (view == LCD_DEFINED_TEMP) {
/* Create string to display on LCD */
sprintf(lcd_string, " %1.1f F", (double)g_defined_temp);
/* Print update to LCD */
LCDClear();
LCDWriteString(" Desired Temp");
LCDWriteStringXY(0, 1, lcd_string);
}
}
void Format_Data(char buf, uint8_t* line, uint8_t* column)
{
if(buf == '\r' || buf == '\n')
{
if(*line == 7)
{
*line = 1;
LCDClear();
}
else
(*line)++;
}
else if ( buf >= 'a' || buf <= 'z' || buf >='A' || buf <= 'Z'
|| buf >= '1' || buf <= '9')
{
LCDPrintf(*line,*column,"%c",buf);
if(*column == 16)
{
if(*line == 7)
{
*line = 1;
LCDClear();
}
else
(*line)++;
*column = 0;
}
else
(*column)++;
}
else if ( buf == SPI_CHAR_IDLE);
else
{
LCDPrintf(8,0,"Invalid Char");
}
}
int main(void)
{
int timer = 0;
int x;
int y;
char str1[16];
char str2[16];
clear_bit(DDRD,5);
clear_bit(DDRD,4);
set_bit(DDRB,7);
set_bit(PORTD,5);
set_bit(PORTD,4);
set_bit(PORTB,7);
LCDInit();
ADCInit();
sei();
LCDClear();
while(1)
{
timer ++;
if (timer >= 1000) {
timer = 0;
if(!check_bit(PIND,5))
{
}
if(!check_bit(PIND,4))
{
}
}
}
}
void Main (void){
INT16U freq;
S3C_SysInit();
OSInit();
LCDInit();
LCDString(0x00," Bitman\n Spartan 117");
delay(10);
for(freq = 10;freq < 300;freq += 10){
S3C_SetPWMBuzzer(freq,freq/2);
delay(1);
}
LCDClear();
delay(8);
LCDString(0," Bitman Lab\n Log System.");
S3C_SetPWMBuzzer(650,10);
S3C_StartPWMBuzzer();
delay(3);
S3C_StopPWMBuzzer();
delay(1);
S3C_StartPWMBuzzer();
delay(3);
S3C_StopPWMBuzzer();
delay(10);
Sem_UART0Tx = OSSemCreate(1);
Sem_UART1Tx = OSSemCreate(1);
Mbox_UART0Rx = OSMboxCreate((void *)0);
Mbox_UART0Tx = OSMboxCreate((void *)0);
Mbox_LEDMAN = OSMboxCreate((void *)0);
Mbox_BEEPMAN = OSMboxCreate((void *)0);
Mbox_LCDMAN = OSMboxCreate((void *)0);
iOPcode = TYPE_DEFAULT;
OSTaskCreate(TaskStart,(void *)0,&Stk_TaskStart[99],10);
OSStart();
}
int main(void) {
/*****************
* boot sequence *
*****************/
bootARM(); // ARM boot sequence
vs1002Mute(); // mute volume during start up
// start of code
ledRedOn(); // red LED indicates powering up
LCDInit(); // initialize LCD
LCDClear(black);
return 0;
}
void DisplaySavedGlucoReading(void)
{
float read_mgdl=0;
int read_mgdl_int = 0;
read_mgdl = gYmmolRead + (gYmmolDecimalRead/10);
read_mgdl = read_mgdl*18;
read_mgdl_int = (int)read_mgdl;
LCDClear();
// LCDString("%3dmg/dl%02d/%02d/%02d", read_mgdl_int, gMonthRead, gDaysRead, gYearRead);
gotoXY(0,1);
// LCDString(".%d.%dmmol/l %02d:%02d", gYmmolRead, gYmmolDecimalRead, gHoursRead, gMinutesRead);
NOP();
}
int main()
{
int i;
float angle;
float rate;
float acc_x;
float acc_y;
float acc_z;
char aux_buffer[200];
//Create a structure that will store the LCD information
LCD my_lcd;
//Initialize and clear screen
dLcdInit(my_lcd.Lcd);
LCDClear(my_lcd.Lcd);
if(!init_xg1300l_gyro())
return -1;
for(i = 0;i<MAX_SAMPLES;i++)
{ //Print the direct outp from the XG1300L device
get_xg1300l_gyro(&angle, &rate, &acc_x, &acc_y, &acc_z);
sprintf(aux_buffer,"Angle: %0.2f [deg] ", angle);
dLcdDrawText(my_lcd.Lcd, FG_COLOR, 1, 20, NORMAL_FONT, (signed char *)aux_buffer);
printf("%s\n", aux_buffer);
sprintf(aux_buffer, "Rate: %0.2f [deg/s] ", rate);
dLcdDrawText(my_lcd.Lcd, FG_COLOR, 1, 40, NORMAL_FONT, (signed char *)aux_buffer);
printf("%s\n", aux_buffer);
sprintf(aux_buffer, "AccX: %0.2f [m/s^2] ", acc_x);
dLcdDrawText(my_lcd.Lcd, FG_COLOR, 1, 60, NORMAL_FONT, (signed char *)aux_buffer);
printf("%s\n", aux_buffer);
sprintf(aux_buffer, "AccY: %0.2f [m/s^2] ", acc_y);
dLcdDrawText(my_lcd.Lcd, FG_COLOR, 1, 80, NORMAL_FONT, (signed char *)aux_buffer);
printf("%s\n", aux_buffer);
sprintf(aux_buffer, "AccZ: %0.2f [m/s^2] ", acc_z);
dLcdDrawText(my_lcd.Lcd, FG_COLOR, 1, 100, NORMAL_FONT, (signed char *)aux_buffer);
printf("%s\n\n", aux_buffer);
dLcdUpdate(&my_lcd);
sleep(1);
}
//Close devices
close_xg1300l_gyro();
dLcdExit();
return 1;
}
void _init(){
/******************* Pin Configuration ***********************/
DDRA = 0xff; // PORTA = output
DDRB = 0x1; // PORTB.0 = output (backlight)
BUTTON_PORT = 0x13; // pins 0,1,4 of BUTTON_PORT (portE) are pulled high
/******************* ADC Setup / Temperature first *********************/
ADCSRA = (1<<ADPS2)|(1<<ADPS1)|(1<<ADPS0); // ADC Prescaler = Fck/128
ADCSRA |= (1<<ADFR)|(1<<ADEN)|(1<<ADIE); // Free-running mode, enabling ADC and ADC Interrupt
/******************* PWM Setup *********************/
//DDRB |= (1<<PB7);
//OCR2 = 64;
//TCCR2 = (1<<WGM21)|(1<<WGM20)|(1<<COM21)|(1<<CS20)|(1<<CS21);
/******************* LCD Setup *********************/
InitLCD(0);
LCDClear();
LCDWriteStringXY(CLOCK_CURSOR_POSITION,0,"00:00");
LCDWriteStringXY(0,1,"T=00.0");
LCDByte(0b11011111, 1); // Scrive il carattere °: dalla tabella 4 del datasheet HD44780.pdf vediamo che il carattere è 11011111;
// lo mandiamo come byte (LCDByte()) sapendo che dobbiamo mettere RS a 1 (dato!)
LCDWriteStringXY(HUM_CURSOR_POSITION-4, 1, "C_H=88%");
LCDWriteStringXY(ZONE_CURSOR_POSITION-1,1,"_1");
/******************* RTC Setup *********************/
TCCR0 |= (1<<CS02)|(1<<CS01)|(1<<CS00); // clock: F_CPU / 1024
TCCR0 |= (1<<WGM01)|(0<<WGM00); // Clear Timer on Compare
TIMSK |= (1<<OCIE0); // Output compare match interrupt enable
OCR0 = 156; // Interrupt every 10ms
/******************* Timer2 setup: backlight *********************/
//TCCR2 |= (1<<CS22)|(0<<CS21)|(1<<CS20); // clock: F_CPU / 1024
TCCR2 |= (1<<WGM21)|(0<<WGM20); // Clear Timer on Compare
TIMSK |= (1<<OCIE2); // Output compare match interrupt enable
OCR2 = 156; // Interrupt every 10ms
sei();
ADCSRA |= 1<<ADSC; // ADC Start Conversion
}
void displayStatus()
{
LCDClear();
LCDWriteStringXY(0, 0, bm_cfg.ProfileName);
uint8_t sel_antenna_Id = bm_cfg.AntSelBandCfg[BandSelected];
const char * msg = bm_cfg.AntLongNames[sel_antenna_Id];
if (sel_antenna_Id == NO_ANTENNA)
{
msg = err_no_ant;
}
else if (isPeerAntConflict(sel_antenna_Id))
{
msg = err_ant_conflict;
}
uint8_t len = strLen(msg);
uint8_t x = 7 + (10 - len) / 2;
LCDWriteStringXY(x, 0, msg);
LCDWriteStringXY(18, 0, band_str[BandSelected]);
// display antennas to select:
for (uint8_t i = 0; i < MAX_ANT_PER_BAND; i++)
{
uint8_t antenna_Id = bm_cfg.AntAvailBandCfg[BandSelected][i];
if (antenna_Id == NO_ANTENNA)
{
displayAntShort(i, "", "-");
}
else
{
const char* decor = " ";
if (antenna_Id == sel_antenna_Id)
{
decor = "*";
}
if (isPeerAntConflict(antenna_Id))
{
decor = "X";
}
displayAntShort(i, bm_cfg.AntShortNames[antenna_Id], decor);
}
}
}